| Literature DB >> 26222392 |
Xingye Feng1, Xiaoling Gao2, Ting Kang1, Di Jiang1, Jianhui Yao1, Yixian Jing1, Qingxiang Song2, Xinguo Jiang1, Jianying Liang1, Jun Chen1.
Abstract
Targeting delivery of chemotherapeutics to neovasculature represents a promising means for tumor therapy since angiogenesis has been a featured hallmark of glioblastma. However, anti-angiogenic therapy would induce the occurrence of metastatic tumor and even neoplasm recurrence. Simultaneous targeting of tumor cells and neovasculature perfectly overcome such defects and has been proven to be an efficacious strategy for suppressing tumor growth. In the present study, a tumor homing peptide CooP selective binding to mammary-derived growth inhibitor that overexpressed in glioma cells and blood vessel endothelial cells was decorated on the surface of paclitaxel-loading PEG-PLA nanoparticles (NP-PTX) to obtain the dual targeting nanovector CooP-NP-PTX. In vitro antiproliferation study showed that HUVEC cells and U87MG cells were much more sensitive to CooP-NP-PTX than NP-PTX. In vivo imaging demonstrated that CooP-NP accumulated more selectively and penetrated deeper into the tumor site. In addition, the glioma-bearing mice treated with CooP-NP-PTX achieved the longest survival time compared to NP-PTX and Taxol. The findings observed above indicated that CooP peptide-functionalized anti-neoplastic agent-loaded nanoparticles might possess promising potential for glioblastoma therapy.Entities:
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Year: 2015 PMID: 26222392 DOI: 10.1021/acs.bioconjchem.5b00379
Source DB: PubMed Journal: Bioconjug Chem ISSN: 1043-1802 Impact factor: 4.774